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1 DRA preferred terms ("atrial fibrillation," "atrial flutter").
2 ure (the latter was performed for persistent atrial flutter).
3 y right or left ventricular pacing, and (iv) atrial flutter.
4 brillation developed in 56% of patients with atrial flutter.
5 l ectopic tachycardia, and 3 of 9 (33%) with atrial flutter.
6 atrial myopathy seems to promote left septal atrial flutter.
7 e to first-line therapy for the treatment of atrial flutter.
8 e incidence and mechanisms of atypical right atrial flutter.
9 at 45 sites in 10 consecutive patients with atrial flutter.
10 he standard initial therapeutic approach for atrial flutter.
11 d to subsequently initiate isthmus-dependent atrial flutter.
12 e to subsequently initiate isthmus-dependent atrial flutter.
13 ht to characterize the posterior boundary of atrial flutter.
14 at 72 sites on complete maps of 24 atypical atrial flutter.
15 atrium during counterclockwise and clockwise atrial flutter.
16 prophylaxis against atrial fibrillation and atrial flutter.
17 DCCV for symptomatic atrial fibrillation or atrial flutter.
18 and contact electrograms was 0.85+/-0.17 in atrial flutter.
19 pacemaker and only 10 (4.1%) had documented atrial flutter.
20 trigger rather than a consequence of type I atrial flutter.
21 of slow conduction in the reentry circuit of atrial flutter.
22 re thought to be rare after cardioversion of atrial flutter.
23 relation with the duration of previous AF or atrial flutter.
24 lism in patients undergoing cardioversion of atrial flutter.
25 B) to the isthmus in 14 patients with type I atrial flutter.
26 atrial fibrillation and 14 (74%) of 19 with atrial flutter.
27 65 +/- 52 s-1, respectively (p < 0.001), in atrial flutter.
28 right atrium) to assess efficacy at inducing atrial flutter.
29 theter ablation similar to isthmus block for atrial flutter.
30 tinguished isthmus from nonisthmus dependent atrial flutter.
31 for the treatment of atrial fibrillation and atrial flutter.
32 sistent AF, 6% had paroxysmal AF, and 5% had atrial flutter.
33 nt circuits in the majority of patients with atrial flutter.
34 of the TI isthmus-dependent clockwise right atrial flutters.
35 disposing risks were labeled as having "lone atrial flutter."
38 ersion was less pronounced in the group with atrial flutter (27 +/- 18 cm/s for atrial flutter vs. 15
39 patients with chronic AF and 13 with chronic atrial flutter (3 weeks to 3 years in duration) the rela
40 ial free wall activation direction as during atrial flutter; (4) another delay on the lateral right a
41 14 cm/s after cardioversion, p < 0.001) and atrial flutter (42 +/- 19 to 27 +/- 18 cm/s, respectivel
42 thmic drugs, 38% had AF, 17% had both AF and atrial flutter, 9% had persistent atrial flutter, and 3%
43 pping is an established approach to atypical atrial flutter ablation, postpacing intervals shorter th
47 ical prediction rule for atrial fibrillation/atrial flutter (AF) after coronary artery bypass graftin
51 of this study was to assess the incidence of atrial flutter (AFL) after pulmonary vein antrum isolati
55 ngs action potential duration and terminates atrial flutter (AFL) and fibrillation (AF), but the mech
57 nce of new-onset atrial fibrillation (AF) or atrial flutter (AFL) and their influence on clinical out
58 terclockwise isthmus-dependent (CCWID) right atrial flutter (AFL) and to attempt to correlate F-wave
59 ne the atrial remodeling caused by sustained atrial flutter (AFL) and/or atrial fibrillation (AF).
61 erms counterclockwise (CC) and clockwise (C) atrial flutter (Afl) are used to describe right atrial a
62 ization to lisinopril reduces incident AF or atrial flutter (AFL) compared with chlorthalidone in a l
63 g interval (PPI) upon entrainment of typical atrial flutter (AFL) from the cavotricuspid isthmus (CTI
64 of 28 (8%) of 372 consecutive patients with atrial flutter (AFL) had 36 episodes of sustained atypic
66 n for those with atrial fibrillation (AF) or atrial flutter (AFL) receiving long-term treatmentwith c
68 the prevalence and clinical significance of atrial flutter (AFL) that occurs during catheter ablatio
69 hanisms underlying the transition of typical atrial flutter (Afl) to fibrillation (AF) remain unclear
70 de in converting atrial fibrillation (AF) or atrial flutter (AFl) to sinus rhythm (SR) and maintainin
71 The purpose of this study was to separate atrial flutter (AFL) with atypical F waves from fibrilla
73 Four patients had right atrium incisional atrial flutter (AFL), and 6 had LA incisional AFL, which
74 ir pattern during counterclockwise (CCW) CTI atrial flutter (AFL), except for decreased amplitude of
83 endage stunning also occurs in patients with atrial flutter, although to a lesser degree than in thos
84 of counterclockwise and/or clockwise typical atrial flutter, an additional atypical atrial flutter wa
85 of ibutilide converted 54% of patients with atrial flutter and 39% of patients with atrial fibrillat
86 case of a 62-year old female with paroxysmal atrial flutter and atrial fibrillation, whose cardiac co
87 15 patients with AF and 5 patients each with atrial flutter and atrioventricular nodal reentrant tach
89 s contrast are not uncommon in patients with atrial flutter and cardioversion may be associated with
91 ation between suppression of inducible AF or atrial flutter and demographic or clinical patient chara
93 100302, and the partial agonist cisapride on atrial flutter and fibrillation induced in swine were st
96 Previous studies using ICE during mapping of atrial flutter and inappropriate sinus tachycardia have
97 date discusses the classification schemes of atrial flutter and macroreentrant atrial tachycardias, r
98 ces between patients with cardioversion from atrial flutter and those with cardioversion from AF.
99 mboembolic events in the presence of chronic atrial flutter and to determine the impact of anticoagul
100 nd highlights recent ablation approaches for atrial flutters and macroreentrant atrial tachycardias.
101 oth AF and atrial flutter, 9% had persistent atrial flutter, and 3% had paroxysmal AF on antiarrhythm
102 in patients who have atrial fibrillation or atrial flutter, and data point to an important role for
103 ing sinus rhythm, demonstrate reentry during atrial flutter, and describe right atrial activation dur
104 ed with greater experience using Sotalol for atrial flutter, and digoxin and amiodarone for 1: 1 reci
106 quency (RF) ablation of atrial fibrillation, atrial flutter, and nonidiopathic ventricular tachycardi
107 The rate of readmission for recurrent AF, atrial flutter, and/or repeat ablation was 21.7% by 1 ye
113 gency department with atrial fibrillation or atrial flutter as a primary or secondary diagnosis.
116 consecutive patients with ablation of type I atrial flutter, atrial fibrillation was documented in 28
118 nced the first recurrence of symptomatic AF, atrial flutter, atrial tachycardia (HR, 0.56 [95% CI, 0.
119 bsequent AT (comprising atrial fibrillation, atrial flutter, atrial tachycardia, and supraventricular
120 luding bradyarrhythmias, atrial fibrillation/atrial flutter, atrial tachycardia, atrioventricular nod
121 l AV-conduction block (2 cases), (post)ictal atrial flutter/atrial fibrillation (14 cases) and postic
122 ordant alternans, underlies the induction of atrial flutter/atrial fibrillation by atrial ectopic foc
123 each foci location, a vulnerable window for atrial flutter/atrial fibrillation induction was identif
125 Primary effectiveness was freedom from AF/atrial flutter/atrial tachycardia absent new/increased d
126 at procedures and long-term recurrence of AF/atrial flutter/atrial tachycardia are significantly lowe
127 s, 12-month freedom from atrial fibrillation/atrial flutter/atrial tachycardia recurrence was 72.5%.
129 es (47 patients with AF and 16 patients with atrial flutter/atrial tachycardia) after the initial pro
130 malous bundles, ventricular premature beats, atrial flutter, atrioventricular nodal reentry, and atri
131 ing order of frequency, atrial fibrillation, atrial flutter, atrioventricular nodal reentry, Wolff-Pa
132 investigated the mechanism of initiation of atrial flutter, before ablation, to determine the site o
133 ime of conversion and included appearance of atrial flutter, bradycardia, pauses and junctional rhyth
134 rrhythmia is frequently referred to as "left atrial flutter," but the mechanism and best ablation str
140 s also had a lower adjusted risk of incident atrial flutter compared with whites, the risk of flutter
141 terms adverse effects, atrial fibrillation, atrial flutter, congestive heart failure, electrical sto
143 duced after lesion set completion, sustained atrial flutter could be induced in 25% of the hearts.
145 hypothesis that the direction of rotation of atrial flutter depends on the pacing site from which it
147 dents was used to ascertain all new cases of atrial flutter diagnosed from July 1, 1991 to June 30, 1
149 "Atrial fibrillation" was defined as AF or atrial flutter documented by electrocardiogram or prior
150 illation (166+/-236 seconds) converting into atrial flutter during electrophysiological evaluation we
153 rhythm, A-V dissociation, sinus bradycardia, atrial flutter, escape-capture bigeminy, and atrial prem
156 c target in the control of AVN conduction in atrial flutter/fibrillation, one of the most common arrh
158 erclockwise (CCW) and clockwise (CW) typical atrial flutter (Fl) in patients with and without structu
159 mained AF-free and 74% AF/atrial tachycardia/atrial flutter-free during follow-up on or off AADs.
160 -free and 66% remained AF/atrial tachycardia/atrial flutter-free on or off AADs (antiarrhythmic drugs
163 350 ms, APD90 was shorter in both the AF and atrial flutter groups than in the control group (p < 0.0
165 er adjustment for age and sex, patients with atrial flutter had a higher incidence of thromboembolic
172 ition to terminating atrial fibrillation and atrial flutter, ibutilide significantly reduces human at
173 ant tachycardia (IART) and isthmus-dependent atrial flutter (IDAF) in patients presenting with suprav
174 this study was to separate isthmus-dependent atrial flutter (IDAFL) from non-isthmus-dependent atrial
182 whether chronic atrial fibrillation (AF) and atrial flutter in patients lead to electrical remodeling
184 More patients had atrial fibrillation or atrial flutter in the albiglutide group (35 [1.4%] of 25
186 ts with at least two episodes of symptomatic atrial flutter in the last four months were randomized t
188 vely in patients with atrial fibrillation or atrial flutter, in patients undergoing cardioversion of
191 drome (in three [18%] patients); and sepsis, atrial flutter, indirect hyperbilirubinaemia, cerebral h
192 acing to prevent atrial fibrillation (AF) or atrial flutter induced by single-site atrial pacing and
200 re-entrant circuit to determine whether the atrial flutter is isthmus-dependent, non-isthmus-depende
202 anatomic and/or functional barriers, typical atrial flutter is sustained by a single reentrant circui
204 ical studies with entrainment mapping of the atrial flutter isthmus for determining postpacing interv
210 In most of our postoperative patients, the atrial flutter isthmus was part of the reentrant circuit
212 ptomatic recurrence of AF/atrial tachycardia/atrial flutter lasting >30 seconds, determined 3 months
215 dependent, or atypical; (2) interrupting the atrial flutter macroreentrant circuit with an ablation c
217 s intra-atrial block, sinus bradycardia, and atrial flutter, may be attributed to changes in atrial s
222 The cause was atrial fibrillation (n=13), atrial flutter (n=4), atrial tachycardia (n=3), idiopath
223 ias included cavotricuspid isthmus-dependent atrial flutter (n=7), non-isthmus-dependent right atrial
225 l flutter (IDAFL) from non-isthmus-dependent atrial flutter (NIDAFL) from the electrocardiogram (ECG)
226 r could account for spontaneous or inducible atrial flutter observed in patients referred for ablatio
230 ce, atrial burst pacing consistently induced atrial flutter or AF in Casq2-/- mice and in isolated Ca
232 boembolic events occurred during a rhythm of atrial flutter or after cardioversion to sinus rhythm.
233 rrence of atrial fibrillation, occurrence of atrial flutter or atrial tachycardia, use of antiarrhyth
234 ients with a history of atrial fibrillation, atrial flutter or both were randomly assigned to receive
237 ven patients (age range 22 to 92 years) with atrial flutter or fibrillation of 3 h to 90 days' (mean
238 17 anesthetized, open-chest, juvenile pigs, atrial flutter or fibrillation was induced by rapid righ
240 ong atrial action potentials and may prevent atrial flutter or fibrillation without affecting ventric
241 Patients (n = 44) with bundle branch blocks, atrial flutter or fibrillation, pacemaker rhythm, recent
246 RM ablation terminated AF to sinus rhythm or atrial flutter or tachycardia in 59% (PAF), 37% (PeAF),
248 nth recurrence, defined as an episode of AF, atrial flutter, or atrial tachycardia lasting >30 second
249 elihood of freedom from atrial fibrillation, atrial flutter, or atrial tachycardia while not receivin
250 atrial tachyarrhythmia (atrial fibrillation, atrial flutter, or atrial tachycardia) between 91 and 36
251 or asymptomatic atrial tachyarrhythmia (AF, atrial flutter, or atrial tachycardia) between days 91 a
252 30 seconds (symptomatic or asymptomatic AF, atrial flutter, or atrial tachycardia), detected by eith
255 w-onset postoperative atrial fibrillation or atrial flutter (pAF) that could be related to rDA admini
256 rdings only for atrial fibrillation and some atrial flutter propagations patterns, and HDF filtering
257 ed the outcome at follow-up of patients with atrial flutter randomly assigned to drug therapy or RF a
258 istory of symptomatic atrial fibrillation or atrial flutter received placebo or azimilide (35 to 125
262 f therapy, end points included recurrence of atrial flutter, rehospitalization and quality of life.
263 atrial fibrillation after ablation of type I atrial flutter remains an important clinical problem.
266 esponse was observed in most cases of type I atrial flutter, signifying a fully excitable gap in all
268 the first population-based investigation of atrial flutter, suggests this curable condition is much
269 as exercise-induced atrial fibrillation (AF)/atrial flutter, supraventricular tachycardia (SVT), or A
271 years of age, she experienced an episode of atrial flutter that was treated with electrical cardiove
273 iant patients who present for ablation in AF/atrial flutter, the procedures could be performed withou
275 th cardioversion; postoperative AF excluding atrial flutter; time to first postoperative AF; number o
276 n of atrial flutter involves (1) mapping the atrial flutter to define the conduction zones within the
278 e estimated lifetime risks for AF (including atrial flutter) to age 95 years, with death free of AF a
279 y Cause in Patients With Atrial Fibrillation/Atrial Flutter) trial, which demonstrated a significant
281 pothesis in patients undergoing ablation for atrial flutter using a novel ECG algorithm to detect sub
282 ocardial activation during the initiation of atrial flutter via fibrillation and the rarity of degene
283 roup with atrial flutter (27 +/- 18 cm/s for atrial flutter vs. 15 +/- 14 cm/s for atrial fibrillatio
286 pical atrial flutter, an additional atypical atrial flutter was mapped to the right atrial free wall.
295 gh-sensitivity CRP in 67 patients with AF or atrial flutter who underwent successful electrical CV.
298 compared the stroke rate in 59 patients with atrial flutter with rates in a sample in which age- and
300 hs, 77% of patients were free from AF and/or atrial flutter without antiarrhythmic drug therapy.